synthetic biology - stem art munnelly presentation.pdf · synthetic biology: a perspective on its...
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Genes Pathways Genomes
Kevin Munnelly, President and CEO, Gen9Stem Cells & Regenerative Medicine CongressSeptember 15, 2014
Synthetic Biology:A Perspective On Its Potential In Regenerative Medicine
Shameless Self Promotion
Gen9 Confidential2
20+ years in pharmaceuticals, life science tools and molecular diagnostics
Board Member
Fast, accurate, inexpensive gene sequencing using molecular motion
Providing functional water soluble variants of any GPCR or
membrane protein
Gen9 – Synthesizing the Future
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DrewEndy
Stanford
Bio-engineering
George Church
Harvard
Genetics
Joe Jacobson
MIT
Fabrication
Founded 200935 EmployeesLocated in Cambridge, MA, USA
Founders Investors
What is Synthetic Biology?
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"Synthetic biology is:a) the design and
construction of new biological parts, devices and systems and; b) the re-design of existing natural biological systems for useful purposes."
Synthetic Biology is Creating Future Factories…
…for the Production of Pharmaceuticals, Biofuels and Chemicals
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to Create Cellular Factories … to Make High Value ProductsUsing Synthetic Genes…
ChemicalsBio-Fuels EnzymesPharmaceuticals
Products of Synthetic Biology
Gen9 Confidential6
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Systems Biology• Construction and analysis of
synthetic regulatory networks• Sophisticated Perturbations
Bimolecular synthesis and fabrication• Optimized drug synthesis• Molecular-scale device fabrication
Biomedical• Artificial immune systems• Cancer and other disease therapies• Tissue generation and regulation• Biosensing• Diagnostics
Synthetic Biology in Medicine
The Progress of Synthetic Biology
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De novo Mycoplasma Genome synthesized
S. cerevisiae Chromosome synthesized
DNA
Prokaryote
Eukaryote
Tissue/Organ
Metazoan
Bi-stable Switch in E. coli
Designed Proteins
Synthetic CircuitsParts Libraries BioBricks repository established
2000
2005
2010
2015
2020
1995
What is Holding Us Back?
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Capacity in Base Pairs Per Year
3 Trillion bpAnnual
SequencingCapacity
300 Million bpAnnual
SynthesisCapacity
10,000X Discrepancy
The Opportunity: Reading vs. Writing DNA
Gene Synthesis: A new Demonstration of Moore’s Law
Disruptive Technologies
Integrated Circuit
Gen9 BioFab®
Simple Circuit Complex Circuit
Oligo Synthesis Gene Synthesis
Gene Synthesis Ecosystem
Gen9 Confidential12
Parts Library CAD
Bio-Informatics
BioFab®
On-Demand DNA Applications
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base
pairs 102 107105104103 106
single genes*
genetic circuits
Pathwaysgenome rewrite
minimal life
The Promise of Synthetic Biology
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Editing Genomes
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Advancements in technologies for precision editing
Guide RNACas9
Genomic DNA
Repair
Targeted Genome Editing
Synthetic Donor DNA
Creation of Pluripotent Cells
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Reprogramming:ERG, KLF4, SOX4, MYB, RORA,
HLF, HOXA5, HOXA9, and HOXA10
iPSFibroblast iPS Cells
Growth
Reprogramming:ERG, KLF4, SOX4, MYB, RORA,
HLF, HOXA5, HOXA9, and HOXA10
PLUS ADDITIONAL Factors
iPS+?Fibroblast
Growth
Pluripotent Reprogramming
Better Options for Therapy
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And Disease Treatment
Healthy DonorPatient
Engineered for:• Immune resistance?• Viral Resistance?• Additional disease
fighting capabilities
Engineered for:• Viral Resistance?• Additional disease
fighting capabilities• Anti Aging?
Recipient Patient
New Therapeutic Companies in Editing Space
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Need for Organs
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Each day, an average of 18 people die waiting for transplants due to organ shortage (>6500 year)
Data from optn.transplant.hrsa.gov and OPTN/SRTR Annual Report.** Data include deceased and living donors
Humanized Pigs?
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Immune Resistant Model Organisms
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Iterative genome editing approach to synthesize human compatible organs from animals
Target-cell isolation
Rapid toolbuilding
Accurateassessment
Targetingvalidation
Organ level functional
assays
Editing
Cas9
gRNA
Genome-wide gene discovery
Pig cloning and organ testing
Multipliable genome
engineering
Iterativehumanization of pig organs
DNA synthesis
CRISPR library
Engineered cell library
Can We Create Large Scale Functional Tissues?
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Defining, Writing and Manipulating Genetic Programs
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A Self-Timed Genetic Program for β cell Differentiation
From the Weiss lab (MIT Synthetic Biology Dept)
A Sampling of Cell Fate Regulators
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Targets for Synthetic Biology Reprogramming
J. Fujikura, et al., Genes and Development, Vol. 16,pp. 784‐789, 2002.R. Davis, H. Weintraub, A. B. Lassar, Cell Vol. 51, pp. 987‐1000, 1987.H. Niwa, et. al, Cell, Vol. 123(5), pp. 917‐929, 2005.Ericson, et al., Cell, Vol. 90, pp. 169‐180, 1997.G. Gu, et al., Development Vol. 129, pp. 2447‐2457, 2002.J. Wang, et al., Developmental Biology, Vol. 266, pp. 178‐189, 2004.N. Lavon, et al., Stem Cells, Vol. 24, pp. 1923‐1930, 2006.J. Heit, S. Karnik, S. Kim, Ann. Rev. Cell Dev. Biol. 22: 311‐338, 2006.D. Sinner, et al., Development, Vol. 131, pp. 3069‐3080, 2004J. Briscoe, et al., Nature, Vol. 398, p.622‐627, 1999.T. Jessell, Nature Reviews Genetics, Vol. 1, pp. 21‐29, 2000.M. McCormick, et al., Mol. and Cell. Bio., Vol. 16(10),pp. 5792‐5800, 1996M. Yasunaga, et al., Nature Biotech, Vol. 23(12), 1542‐1550, 2005.C. Vernochet, et al., FEBS Letters, Vol, 510, pp. 94‐98, 2002.
• Gata4, Gata6, Sox17
Endoderm
• MyoD
Muscle
• Cdx2
Trophectoderm
• Ngn3, Pax4, Nkx2.2, Pdx1
Pancreas
• Pparγ
Adipocytes
• Nkx2.2, Nkx6.1, Pax6, Ngn1
Neuronal
Path to Organ (re)Generation
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Reprogramming
Printed Organs
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Development Timeline for 3D Tissues/Organs
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Murphy and Atala. Nature Biotechnology Vol 32, No. 8 (2014)
Looking Ahead
• Advancement of developmental biology research
• iPS reprogramming
– Therapies
– Tissues
• Applications of amphibian based genetics?
• Generic and personalized model organisms
• SynBio + 3D printing
• Nuclei editing in Brain and neurons
• Anti Aging?
Gen9 Confidential29
Potential to unlock many of life’s mysteries!
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InnovationCollaboration
Dedication Inte
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